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Key Responsibilities and Required Skills for Robotics Engineer

💰 $110,000 - $195,000

EngineeringTechnologyRoboticsAI & Machine Learning

🎯 Role Definition

This role requires a visionary and results-driven Robotics Engineer to join our innovative team, pushing the boundaries of automation and intelligent systems. In this pivotal role, you will be at the heart of developing next-generation robotic solutions that solve real-world problems. You will architect, build, and deploy complex systems, from the low-level firmware to high-level AI-driven behaviors. This is a unique opportunity for a passionate engineer to contribute to the entire product lifecycle, seeing your creations come to life and make a tangible impact on the industry.


📈 Career Progression

Typical Career Path

Entry Point From:

  • Mechatronics Engineer
  • Software Engineer (with a focus on C++/Python/AI)
  • Mechanical or Electrical Engineer with a robotics specialization
  • Recent Master's or PhD Graduate in Robotics or a related field

Advancement To:

  • Senior Robotics Engineer
  • Robotics Team Lead or Engineering Manager
  • Principal Robotics Engineer / Robotics Architect
  • Research Scientist (Robotics & AI)

Lateral Moves:

  • Computer Vision Engineer
  • Machine Learning Engineer
  • Automation Engineer
  • Controls Systems Engineer

Core Responsibilities

Primary Functions

  • Design, prototype, and test complex robotic systems, including manipulators, mobile platforms, and autonomous vehicles, from concept to production.
  • Develop and implement advanced algorithms for robot perception, including sensor fusion (Kalman filters), object detection, and scene understanding using data from cameras, LiDAR, and IMUs.
  • Create, implement, and optimize sophisticated motion planning, trajectory generation, and feedback control algorithms for dynamic and cluttered environments.
  • Build and maintain the core software architecture for our robotic platforms, primarily utilizing C++ and Python within a ROS/ROS2 framework.
  • Lead the end-to-end integration of sensors, actuators, compute platforms, and other hardware components, ensuring robust and reliable system performance.
  • Design and execute rigorous experiments, both in simulation (e.g., Gazebo, Isaac Sim) and on physical hardware, to validate algorithms and system-level performance against key metrics.
  • Debug complex, system-level issues that span across software, electronics, and mechanical domains, identifying root causes and implementing robust, long-term solutions.
  • Collaborate closely with cross-functional teams, including mechanical, electrical, and AI engineers, to ensure seamless system integration and cohesive product development.
  • Author and maintain high-quality technical documentation, including design specifications, system architecture diagrams, test plans, and user guides.
  • Implement and fine-tune SLAM (Simultaneous Localization and Mapping) algorithms to enable robust robot navigation and localization in novel and changing environments.
  • Write clean, high-performance, and reusable code, actively participating in peer code reviews to uphold high software quality and safety standards.
  • Stay current with the latest academic research and industry trends in robotics, machine learning, and computer vision, and champion their application to solve practical challenges.
  • Architect scalable, modular, and extensible software frameworks that can be adapted for future robotic platforms and diverse applications.
  • Optimize algorithms and software for high performance on resource-constrained embedded systems and real-time operating systems.
  • Characterize and model robot kinematics and dynamics to improve control accuracy, simulation fidelity, and overall system performance.
  • Deploy, monitor, and support robotic systems in operational environments, analyzing performance data and logs to drive continuous improvement and reliability enhancements.
  • Translate high-level product requirements from product managers and stakeholders into detailed technical specifications for robotic systems and behaviors.
  • Develop robust safety systems and protocols for human-robot interaction and collaboration, ensuring compliance with industry standards.
  • Create and maintain software tools and infrastructure for data collection, logging, visualization, and analysis to accelerate R&D cycles.
  • Lead technical sub-projects, providing guidance and mentorship to junior engineers and fostering a culture of innovation and excellence.

Secondary Functions

  • Support ad-hoc data requests and exploratory data analysis of robot fleet performance and sensor logs.
  • Contribute to the organization's broader technology and automation strategy and long-term roadmap.
  • Collaborate with business units and product teams to translate evolving market needs into new robotics engineering requirements.
  • Participate in sprint planning, retrospectives, and other agile ceremonies within the engineering team to ensure timely and effective project execution.

Required Skills & Competencies

Hard Skills (Technical)

  • Programming Proficiency: Expert-level skills in modern C++ (11/14/17 or newer) and strong proficiency in Python for scripting, prototyping, and data analysis.
  • Robotics Software: Extensive hands-on experience developing with ROS (Robot Operating System) or ROS2, including creating custom nodes, services, and launch files.
  • Core Robotics Principles: Deep understanding of robot kinematics, dynamics, control theory, motion planning (e.g., A*, RRT), and state estimation.
  • Perception & SLAM: Practical experience implementing and working with perception algorithms, sensor fusion techniques (e.g., EKF, UKF), and SLAM.
  • Sensor Integration: Proven experience integrating and processing data from a variety of robotic sensors, such as 3D LiDAR, IMUs, depth/RGB cameras, and encoders.
  • Simulation: Proficiency in using robotics simulation environments like Gazebo, NVIDIA Isaac Sim, or MuJoCo for algorithm development and testing.
  • Linux & Development Tools: Strong command of the Linux environment, command-line tools, and version control systems (especially Git).
  • Computer Vision & ML: Familiarity with computer vision libraries (e.g., OpenCV, PCL) and an understanding of machine learning concepts and frameworks (e.g., PyTorch, TensorFlow).
  • Mathematics: Solid foundation in linear algebra, geometry, and probability as they apply to robotics.
  • Systems Integration: Ability to debug and solve problems at the intersection of hardware and software.

Soft Skills

  • Analytical Problem-Solving: A systematic and data-driven approach to troubleshooting complex, multi-domain problems.
  • Collaboration & Teamwork: Ability to work effectively in a cross-functional team, sharing knowledge and contributing to a positive team environment.
  • Communication: Excellent written and verbal communication skills, with the ability to articulate complex technical concepts to diverse audiences.
  • Adaptability: A strong desire to learn new technologies and adapt to rapidly changing project requirements and priorities.
  • Hands-On Mentality: A proactive, self-starting attitude with a passion for building and testing physical systems.
  • Attention to Detail: Meticulous and thorough approach to coding, testing, and documentation.

Education & Experience

Educational Background

Minimum Education:

  • Bachelor's Degree in a relevant technical field.

Preferred Education:

  • Master's or PhD in Robotics, Computer Science, or a closely related discipline with a specialization in robotics or AI.

Relevant Fields of Study:

  • Robotics
  • Computer Science
  • Mechatronics Engineering
  • Mechanical Engineering
  • Electrical Engineering

Experience Requirements

Typical Experience Range:

  • 3-8+ years of professional, hands-on experience in robotics software development, systems integration, or a related role.

Preferred:

  • A strong portfolio of personal or professional robotics projects (e.g., GitHub, publications, competition participation) is highly valued. Experience deploying, and maintaining robotic systems in real-world, operational environments is a significant plus.